Catalogues¶
In Roseau Load Flow, some classes are provided with a catalogue. This page describes how to use them.
Networks¶
Roseau Load Flow is provided with a small catalogue of MV and LV networks. These networks are available through
the class ElectricalNetwork.
Here is an interactive plot to explore them. See the Plotting page to learn how to get such interactive map.
Source of data¶
All these networks are built from open data available in France. The complete model of the French distribution network can be provided on demand. Please email us at contact@roseautechnologies.com.
Inspecting the catalogue¶
This catalogue can be retrieved in the form of a dataframe using:
>>> import roseau.load_flow as rlf
>>> rlf.ElectricalNetwork.get_catalogue()
Name |
Nb buses |
Nb branches |
Nb loads |
Nb sources |
Nb grounds |
Nb potential refs |
Available load points |
|---|---|---|---|---|---|---|---|
8 |
7 |
12 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
7 |
6 |
10 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
6 |
5 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
18 |
17 |
32 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
7 |
6 |
10 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
11 |
10 |
18 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
5 |
4 |
6 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
6 |
5 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
17 |
16 |
10 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
50 |
49 |
68 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
30 |
29 |
20 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
53 |
52 |
40 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
88 |
87 |
62 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
39 |
38 |
38 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
69 |
68 |
46 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
49 |
48 |
32 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
59 |
58 |
44 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
8 |
7 |
0 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
33 |
32 |
20 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
128 |
127 |
82 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
44 |
43 |
44 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
66 |
65 |
38 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
125 |
124 |
106 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
12 |
11 |
16 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
11 |
10 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
20 |
19 |
12 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
|
33 |
32 |
28 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
There are MV networks whose names start with “MVFeeder” and LV networks whose names with “LVFeeder”. For each network, there are two available load points:
“Winter”: it contains power loads without production.
“Summer”: it contains power loads with production and 20% of the “Winter” load.
The arguments of the method get_catalogue can be used to filter the output. If you want to get the LV networks
only, you can call:
>>> rlf.ElectricalNetwork.get_catalogue(name=r"LVFeeder.*")
Name |
Nb buses |
Nb branches |
Nb loads |
Nb sources |
Nb grounds |
Nb potential refs |
Available load points |
|---|---|---|---|---|---|---|---|
LVFeeder00939 |
8 |
7 |
12 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder02639 |
7 |
6 |
10 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder04790 |
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder06713 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder06926 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder06975 |
6 |
5 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder18498 |
18 |
17 |
32 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder18769 |
7 |
6 |
10 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder19558 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder20256 |
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder23832 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder24400 |
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder27429 |
11 |
10 |
18 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder27681 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder30216 |
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder31441 |
4 |
3 |
4 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder36284 |
5 |
4 |
6 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder36360 |
9 |
8 |
14 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder37263 |
3 |
2 |
2 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
LVFeeder38211 |
6 |
5 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
A regular expression can also be used:
>>> rlf.ElectricalNetwork.get_catalogue(name=r"LVFeeder38[0-9]+")
Name |
Nb buses |
Nb branches |
Nb loads |
Nb sources |
Nb grounds |
Nb potential refs |
Available load points |
|---|---|---|---|---|---|---|---|
LVFeeder38211 |
6 |
5 |
8 |
1 |
1 |
1 |
‘Summer’, ‘Winter’ |
Getting an instance¶
You can build an ElectricalNetwork instance from the catalogue using the class method
from_catalogue. The name of the network and the name of the load point must be provided:
>>> en = rlf.ElectricalNetwork.from_catalogue(name="LVFeeder38211", load_point_name="Summer")
<ElectricalNetwork: 6 buses, 5 branches, 8 loads, 1 source, 1 ground, 1 potential ref>
In case no or several results match the parameters, an error is raised:
>>> rlf.ElectricalNetwork.from_catalogue(name="LVFeeder38211", load_point_name="Unknown")
RoseauLoadFlowException: No load points for network 'LVFeeder38211' matching the query (load_point_name='Unknown')
have been found. Please look at the catalogue using the `get_catalogue` class method. [catalogue_not_found]
Transformers¶
Roseau Load Flow is provided with a catalogue of transformer parameters. These parameters are available
through the class TransformerParameters.
Note
Currently, only three phase MV/LV transformers are in the catalogue.
Source of data¶
The available transformers data come from the following data sheets:
For Schneider-Electric EcoDesign products (AA0Ak efficiency class): Minera, Vegeta, Trihal
For other Schneider-Electric products: See this document on pages 19, 21 and 22.
For France Transfo: See this document.
Pull requests to add some other sources are welcome!
Inspecting the catalogue¶
This catalogue can be retrieved in the form of a dataframe using:
>>> import roseau.load_flow as rlf
>>> rlf.TransformerParameters.get_catalogue()
Truncated output
Name |
Manufacturer |
Product range |
Efficiency |
Nominal power (kVA) |
Type |
High voltage (kV) |
Low voltage (kV) |
|---|---|---|---|---|---|---|---|
FT_Standard_Standard_100kVA |
FT |
Standard |
Standard |
100 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_160kVA |
FT |
Standard |
Standard |
160 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_250kVA |
FT |
Standard |
Standard |
250 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_315kVA |
FT |
Standard |
Standard |
315 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_400kVA |
FT |
Standard |
Standard |
400 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_500kVA |
FT |
Standard |
Standard |
500 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_630kVA |
FT |
Standard |
Standard |
630 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_800kVA |
FT |
Standard |
Standard |
800 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_1000kVA |
FT |
Standard |
Standard |
1000 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_1250kVA |
FT |
Standard |
Standard |
1250 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_1600kVA |
FT |
Standard |
Standard |
1600 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_2000kVA |
FT |
Standard |
Standard |
2000 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_2500kVA |
FT |
Standard |
Standard |
2500 |
Dyn11 |
20 |
0.4 |
FT_Standard_Standard_3150kVA |
FT |
Standard |
Standard |
3150 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_160kVA |
SE |
Minera |
AA0Ak |
160 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_250kVA |
SE |
Minera |
AA0Ak |
250 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_400kVA |
SE |
Minera |
AA0Ak |
400 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_630kVA |
SE |
Minera |
AA0Ak |
630 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_800kVA |
SE |
Minera |
AA0Ak |
800 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_1000kVA |
SE |
Minera |
AA0Ak |
1000 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_1250kVA |
SE |
Minera |
AA0Ak |
1250 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_1600kVA |
SE |
Minera |
AA0Ak |
1600 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_2000kVA |
SE |
Minera |
AA0Ak |
2000 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_2500kVA |
SE |
Minera |
AA0Ak |
2500 |
Dyn11 |
20 |
0.4 |
SE_Minera_AA0Ak_3150kVA |
SE |
Minera |
AA0Ak |
3150 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_50kVA |
SE |
Minera |
A0Ak |
50 |
Yzn11 |
20 |
0.4 |
SE_Minera_A0Ak_100kVA |
SE |
Minera |
A0Ak |
100 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_160kVA |
SE |
Minera |
A0Ak |
160 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_250kVA |
SE |
Minera |
A0Ak |
250 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_315kVA |
SE |
Minera |
A0Ak |
315 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_400kVA |
SE |
Minera |
A0Ak |
400 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_500kVA |
SE |
Minera |
A0Ak |
500 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_630kVA |
SE |
Minera |
A0Ak |
630 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_800kVA |
SE |
Minera |
A0Ak |
800 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_1000kVA |
SE |
Minera |
A0Ak |
1000 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_1250kVA |
SE |
Minera |
A0Ak |
1250 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_1600kVA |
SE |
Minera |
A0Ak |
1600 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_2000kVA |
SE |
Minera |
A0Ak |
2000 |
Dyn11 |
20 |
0.4 |
SE_Minera_A0Ak_2500kVA |
SE |
Minera |
A0Ak |
2500 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_50kVA |
SE |
Minera |
B0Bk |
50 |
Yzn11 |
20 |
0.4 |
SE_Minera_B0Bk_100kVA |
SE |
Minera |
B0Bk |
100 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_160kVA |
SE |
Minera |
B0Bk |
160 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_250kVA |
SE |
Minera |
B0Bk |
250 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_315kVA |
SE |
Minera |
B0Bk |
315 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_400kVA |
SE |
Minera |
B0Bk |
400 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_500kVA |
SE |
Minera |
B0Bk |
500 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_630kVA |
SE |
Minera |
B0Bk |
630 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_800kVA |
SE |
Minera |
B0Bk |
800 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_1000kVA |
SE |
Minera |
B0Bk |
1000 |
Dyn11 |
20 |
0.4 |
SE_Minera_B0Bk_1250kVA |
SE |
Minera |
B0Bk |
1250 |
Dyn11 |
20 |
0.4 |
The following data are available in this table:
the name: a unique name of the transformer in the catalogue.
the manufacturer: two manufacturers are available.
"SE"stands for “Schneider-Electric” and"FT"stands for “France Transfo”.the product range which depends on the manufacturer
the efficiency class of the transformer
the type of the transformer.
the nominal power, noted sn.
the primary side phase to phase voltage, noted uhv.
the secondary side phase to phase voltage, noted ulv.
The get_catalogue method accepts arguments (in bold above) that can be used to filter the returned table. The
following command only retrieves transformer parameters of transformers with an efficiency of “A0Ak”:
>>> rlf.TransformerParameters.get_catalogue(efficiency="A0Ak")
Name |
Manufacturer |
Product range |
Efficiency |
Type |
Nominal power (kVA) |
High voltage (kV) |
Low voltage (kV) |
|---|---|---|---|---|---|---|---|
SE_Minera_A0Ak_50kVA |
SE |
Minera |
A0Ak |
Yzn11 |
50.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_100kVA |
SE |
Minera |
A0Ak |
Dyn11 |
100.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_160kVA |
SE |
Minera |
A0Ak |
Dyn11 |
160.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_250kVA |
SE |
Minera |
A0Ak |
Dyn11 |
250.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_315kVA |
SE |
Minera |
A0Ak |
Dyn11 |
315.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_400kVA |
SE |
Minera |
A0Ak |
Dyn11 |
400.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_500kVA |
SE |
Minera |
A0Ak |
Dyn11 |
500.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_630kVA |
SE |
Minera |
A0Ak |
Dyn11 |
630.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_800kVA |
SE |
Minera |
A0Ak |
Dyn11 |
800.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_1000kVA |
SE |
Minera |
A0Ak |
Dyn11 |
1000.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_1250kVA |
SE |
Minera |
A0Ak |
Dyn11 |
1250.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_1600kVA |
SE |
Minera |
A0Ak |
Dyn11 |
1600.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_2000kVA |
SE |
Minera |
A0Ak |
Dyn11 |
2000.0 |
20.0 |
0.4 |
SE_Minera_A0Ak_2500kVA |
SE |
Minera |
A0Ak |
Dyn11 |
2500.0 |
20.0 |
0.4 |
or only transformers with a wye winding on the primary side (using a regular expression)
>>> rlf.TransformerParameters.get_catalogue(type=r"y.*")
Name |
Manufacturer |
Product range |
Efficiency |
Type |
Nominal power (kVA) |
High voltage (kV) |
Low voltage (kV) |
|---|---|---|---|---|---|---|---|
SE_Minera_A0Ak_50kVA |
SE |
Minera |
A0Ak |
Yzn11 |
50.0 |
20.0 |
0.4 |
SE_Minera_B0Bk_50kVA |
SE |
Minera |
B0Bk |
Yzn11 |
50.0 |
20.0 |
0.4 |
SE_Minera_C0Bk_50kVA |
SE |
Minera |
C0Bk |
Yzn11 |
50.0 |
20.0 |
0.4 |
SE_Minera_Standard_50kVA |
SE |
Minera |
Standard |
Yzn11 |
50.0 |
20.0 |
0.4 |
or only transformers meeting both criteria
>>> rlf.TransformerParameters.get_catalogue(efficiency="A0Ak", type=r"y.*")
Name |
Manufacturer |
Product range |
Efficiency |
Type |
Nominal power (kVA) |
High voltage (kV) |
Low voltage (kV) |
|---|---|---|---|---|---|---|---|
SE_Minera_A0Ak_50kVA |
SE |
Minera |
A0Ak |
Yzn11 |
50.0 |
20.0 |
0.4 |
Among all the possible filters, the nominal power and voltages are expected in their default unit (VA and V). You can also use the Pint library to express the values in different units. For instance, if you want to get transformer parameters with a nominal power of 3150 kVA, the following two commands return the same table:
>>> rlf.TransformerParameters.get_catalogue(sn=3150e3) # in VA by default
>>> import roseau.load_flow as rlf
... rlf.TransformerParameters.get_catalogue(sn=rlf.Q_(3150, "kVA"))
Name |
Manufacturer |
Product range |
Efficiency |
Type |
Nominal power (kVA) |
High voltage (kV) |
Low voltage (kV) |
|---|---|---|---|---|---|---|---|
FT_Standard_Standard_3150kVA |
FT |
Standard |
Standard |
Dyn11 |
3150.0 |
20.0 |
0.4 |
SE_Vegeta_C0Bk_3150kVA |
SE |
Vegeta |
C0Bk |
Dyn11 |
3150.0 |
20.0 |
0.4 |
SE_Vegeta_Standard_3150kVA |
SE |
Vegeta |
Standard |
Dyn11 |
3150.0 |
20.0 |
0.4 |
Getting an instance¶
You can build a TransformerParameters instance from the catalogue using the class method from_catalogue.
You must filter the data to get a single transformer. You can apply the same filtering technique used for
the method get_catalogue to narrow down the result to a single transformer in the catalogue.
For instance, these parameters filter the catalogue down to a single transformer parameters:
>>> rlf.TransformerParameters.from_catalogue(efficiency="A0Ak", type=r"^y.*$")
TransformerParameters(id='SE_Minera_A0Ak_50kVA')
The name filter can be directly used:
>>> rlf.TransformerParameters.from_catalogue(name="SE_Minera_A0Ak_50kVA")
TransformerParameters(id='SE_Minera_A0Ak_50kVA')
In case no or several results match the parameters, an error is raised:
>>> rlf.TransformerParameters.from_catalogue(manufacturer="ft")
RoseauLoadFlowException: Several transformers matching the query (manufacturer='ft') have been found:
'FT_Standard_Standard_100kVA', 'FT_Standard_Standard_160kVA', 'FT_Standard_Standard_250kVA',
'FT_Standard_Standard_315kVA', 'FT_Standard_Standard_400kVA', 'FT_Standard_Standard_500kVA',
'FT_Standard_Standard_630kVA', 'FT_Standard_Standard_800kVA', 'FT_Standard_Standard_1000kVA',
'FT_Standard_Standard_1250kVA', 'FT_Standard_Standard_1600kVA', 'FT_Standard_Standard_2000kVA',
'FT_Standard_Standard_2500kVA', 'FT_Standard_Standard_3150kVA'. [catalogue_several_found]
or if no results:
>>> rlf.TransformerParameters.from_catalogue(manufacturer="unknown")
RoseauLoadFlowException: No manufacturer matching 'unknown' has been found. Available manufacturers
are 'FT', 'SE'. [catalogue_not_found]
Lines¶
Roseau Load Flow is provided with a catalogue of line parameters. These parameters are available
through the class LineParameters.
Source of data¶
The available lines data are based on the following sources:
IEC standards including: IEC-60228, IEC-60287, IEC-60364
Technique de l’ingénieur (French technical and scientific documentation)
Inspecting the catalogue¶
This catalogue can be retrieved in the form of a dataframe using:
>>> import roseau.load_flow as rlf
>>> rlf.LineParameters.get_catalogue()
Truncated output
Name |
Line type |
Conductor material |
Insulator type |
Cross-section (mm²) |
Resistance (ohm/km) |
Reactance (ohm/km) |
Susceptance (S/km) |
Maximal current (A) |
|---|---|---|---|---|---|---|---|---|
T_AM_80 |
twisted |
am |
80 |
0.457596 |
0.105575 |
3.0507e-05 |
203 |
|
U_CU_19 |
underground |
cu |
19 |
1.009 |
0.133054 |
2.33629e-05 |
138 |
|
O_AM_33 |
overhead |
am |
33 |
1.08577 |
0.375852 |
3.045e-06 |
142 |
|
U_CU_150 |
underground |
cu |
150 |
0.124 |
0.0960503 |
3.41234e-05 |
420 |
|
O_AM_74 |
overhead |
am |
74 |
0.491898 |
0.350482 |
3.2757e-06 |
232 |
|
T_AM_34 |
twisted |
am |
34 |
1.04719 |
0.121009 |
2.60354e-05 |
118 |
|
T_AM_50 |
twisted |
am |
50 |
0.744842 |
0.113705 |
2.79758e-05 |
146 |
|
O_AM_95 |
overhead |
am |
95 |
0.37184 |
0.342634 |
3.3543e-06 |
266 |
|
U_CU_100 |
underground |
cu |
100 |
0.185 |
0.102016 |
3.17647e-05 |
339 |
|
T_CU_38 |
twisted |
cu |
38 |
0.4966 |
0.118845 |
2.65816e-05 |
165 |
|
O_AM_100 |
overhead |
am |
100 |
0.356269 |
0.341022 |
3.371e-06 |
276 |
|
U_AM_60 |
underground |
am |
60 |
0.629804 |
0.11045 |
2.89372e-05 |
194 |
|
T_AM_79 |
twisted |
am |
79 |
0.463313 |
0.105781 |
3.04371e-05 |
201 |
|
T_CU_60 |
twisted |
cu |
60 |
0.3275 |
0.11045 |
2.89372e-05 |
219 |
|
U_AM_240 |
underground |
am |
240 |
0.14525 |
0.0899296 |
3.69374e-05 |
428 |
|
O_AL_37 |
overhead |
al |
37 |
0.837733 |
0.372257 |
3.0757e-06 |
152 |
|
U_AM_93 |
underground |
am |
93 |
0.383274 |
0.103152 |
3.13521e-05 |
249 |
|
O_AM_28 |
overhead |
am |
28 |
1.27866 |
0.381013 |
3.0019e-06 |
130 |
|
T_AL_90 |
twisted |
al |
90 |
0.3446 |
0.103672 |
3.11668e-05 |
219 |
|
O_AM_79 |
overhead |
am |
79 |
0.463313 |
0.348428 |
3.2959e-06 |
240 |
The following data are available in this table:
the name. A name that contains the type of the line, the material of the conductor, the cross-section area, and optionally the insulator type. It is in the form
{line_type}_{conductor_material}_{cross_section}_{insulator_type}.the line type. It can be
"OVERHEAD","UNDERGROUND"or"TWISTED".the conductor material. See the
ConductorTypeclass.the insulator type. See the
InsulatorTypeclass.the cross-section of the conductor in mm².
in addition to the following calculated physical parameters:
the resistance of the line in ohm/km.
the reactance of the line in ohm/km.
the susceptance of the line in S/km.
the maximal current of the line in A.
The get_catalogue method accepts arguments (in bold above) that can be used to filter the returned
table. The following command only returns line parameters made of Aluminum:
>>> rlf.LineParameters.get_catalogue(conductor_type="al")
Truncated output
Name |
Line type |
Conductor material |
Insulator type |
Cross-section (mm²) |
Resistance (ohm/km) |
Reactance (ohm/km) |
Susceptance (S/km) |
Maximal current (A) |
|---|---|---|---|---|---|---|---|---|
U_AL_117 |
underground |
al |
117 |
0.26104 |
0.0996298 |
3.2668e-05 |
286 |
|
U_AL_33 |
underground |
al |
33 |
0.9344 |
0.121598 |
2.58907e-05 |
144 |
|
U_AL_69 |
underground |
al |
69 |
0.4529 |
0.108041 |
2.96921e-05 |
212 |
|
T_AL_228 |
twisted |
al |
228 |
0.133509 |
0.0905569 |
3.66279e-05 |
395 |
|
U_AL_150 |
underground |
al |
150 |
0.206 |
0.0960503 |
3.41234e-05 |
325 |
|
T_AL_69 |
twisted |
al |
69 |
0.4529 |
0.108041 |
2.96921e-05 |
185 |
|
O_AL_116 |
overhead |
al |
116 |
0.26372 |
0.336359 |
3.42e-06 |
310 |
|
U_AL_50 |
underground |
al |
50 |
0.641 |
0.113705 |
2.79758e-05 |
175 |
|
U_AL_93 |
underground |
al |
93 |
0.32984 |
0.103152 |
3.13521e-05 |
249 |
|
T_AL_59 |
twisted |
al |
59 |
0.5519 |
0.110744 |
2.88474e-05 |
164 |
or only lines with a cross-section of 240 mm² (using a regular expression)
>>> rlf.LineParameters.get_catalogue(section=240)
Name |
Line type |
Conductor material |
Insulator type |
Cross-section (mm²) |
Resistance (ohm/km) |
Reactance (ohm/km) |
Susceptance (S/km) |
Maximal current (A) |
|---|---|---|---|---|---|---|---|---|
O_AL_240 |
overhead |
al |
240 |
0.125 |
0.313518 |
3.6823e-06 |
490 |
|
O_CU_240 |
overhead |
cu |
240 |
0.0775 |
0.313518 |
3.6823e-06 |
630 |
|
O_AM_240 |
overhead |
am |
240 |
0.14525 |
0.313518 |
3.6823e-06 |
490 |
|
U_AL_240 |
underground |
al |
240 |
0.125 |
0.0899296 |
3.69374e-05 |
428 |
|
U_CU_240 |
underground |
cu |
240 |
0.0775 |
0.0899296 |
3.69374e-05 |
549 |
|
U_AM_240 |
underground |
am |
240 |
0.14525 |
0.0899296 |
3.69374e-05 |
428 |
|
T_AL_240 |
twisted |
al |
240 |
0.125 |
0.0899296 |
3.69374e-05 |
409 |
|
T_CU_240 |
twisted |
cu |
240 |
0.0775 |
0.0899296 |
3.69374e-05 |
538 |
|
T_AM_240 |
twisted |
am |
240 |
0.14525 |
0.0899296 |
3.69374e-05 |
409 |
or only lines meeting both criteria
>>> rlf.LineParameters.get_catalogue(conductor_type="al", section=240)
Name |
Line type |
Conductor material |
Insulator type |
Cross-section (mm²) |
Resistance (ohm/km) |
Reactance (ohm/km) |
Susceptance (S/km) |
Maximal current (A) |
|---|---|---|---|---|---|---|---|---|
O_AL_240 |
overhead |
al |
240 |
0.125 |
0.313518 |
3.6823e-06 |
490 |
|
U_AL_240 |
underground |
al |
240 |
0.125 |
0.0899296 |
3.69374e-05 |
428 |
|
T_AL_240 |
twisted |
al |
240 |
0.125 |
0.0899296 |
3.69374e-05 |
409 |
When filtering by the cross-section area, it is expected to provide a numeric value in mm² or to use a pint quantity.
Getting an instance¶
You can build a LineParameters instance from the catalogue using the class method from_catalogue.
You must filter the data to get a single line. You can apply the same filtering technique used for
the method get_catalogue to narrow down the result to a single line in the catalogue.
For instance, these parameters filter the results down to a single line parameters:
>>> rlf.LineParameters.from_catalogue(
... line_type="underground", conductor_type="al", section=240
... )
LineParameters(id='U_AL_240')
Or you can use the name filter directly:
>>> rlf.LineParameters.from_catalogue(name="U_AL_240")
LineParameters(id='U_AL_240')
As you can see, the id of the created instance is the same as the name in the catalogue. You can
override this behaviour by passing the id parameter to from_catalogue:
>>> rlf.LineParameters.from_catalogue(name="U_AL_240", id="lp-special")
LineParameters(id='lp-special')
Line parameters created from the catalogue are 3-phase without a neutral by default. It is possible
to create line parameters with different numbers of phases using the nb_phases parameter.
>>> rlf.LineParameters.from_catalogue(name="U_AL_240").z_line.shape
(3, 3)
>>> # For 3-phase with neutral lines
... rlf.LineParameters.from_catalogue(name="U_AL_240", nb_phases=4).z_line.shape
(4, 4)
>>> # For single-phase lines
... rlf.LineParameters.from_catalogue(name="U_AL_240", nb_phases=2).z_line.shape
(2, 2)
In case no or several results match the parameters, an error is raised:
>>> rlf.LineParameters.from_catalogue(name=r"U_AL.*")
RoseauLoadFlowException: Several line parameters matching the query (name='U_AL.*') have been found:
'U_AL_19', 'U_AL_20', 'U_AL_22', 'U_AL_25', 'U_AL_28', 'U_AL_29', 'U_AL_33', 'U_AL_34', 'U_AL_37',
'U_AL_38', 'U_AL_40', 'U_AL_43', 'U_AL_48', 'U_AL_50', 'U_AL_54', 'U_AL_55', 'U_AL_59', 'U_AL_60',
'U_AL_69', 'U_AL_70', 'U_AL_74', 'U_AL_75', 'U_AL_79', 'U_AL_80', 'U_AL_90', 'U_AL_93', 'U_AL_95',
'U_AL_100', 'U_AL_116', 'U_AL_117', 'U_AL_120', 'U_AL_147', 'U_AL_148', 'U_AL_150', 'U_AL_228',
'U_AL_240', 'U_AL_288'. [catalogue_several_found]
or if no results:
>>> rlf.LineParameters.from_catalogue(name="unknown")
RoseauLoadFlowException: No name matching 'unknown' has been found. Available names are 'O_AL_12',
'O_AL_13', 'O_AL_14', 'O_AL_19', 'O_AL_20', 'O_AL_22', 'O_AL_25', 'O_AL_28', 'O_AL_29', 'O_AL_33',
'O_AL_34', 'O_AL_37', 'O_AL_38', 'O_AL_40', 'O_AL_43', 'O_AL_48', 'O_AL_50', 'O_AL_54', 'O_AL_55',
'O_AL_59', 'O_AL_60', 'O_AL_69', 'O_AL_70', 'O_AL_74', 'O_AL_75', 'O_AL_79', 'O_AL_80', 'O_AL_90',
'O_AL_93', 'O_AL_95', 'O_AL_100', 'O_AL_116', 'O_AL_117', 'O_AL_120', 'O_AL_147', 'O_AL_148', 'O_AL_150',
'O_AL_228', 'O_AL_240', 'O_AL_288', 'O_CU_3', 'O_CU_7', 'O_CU_12', 'O_CU_13', [...]. [catalogue_not_found]